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Topic: response inhibition

ePoster
3 ePosters

In Behavioral Neuroscience and Cognition

ePoster · Computational Neuroscience

Recovering Neurocognitive Evidence Accumulation Models of Response Inhibition with Invertible Neural Networks

Konrad Mikalauskas · Neuromatch 5

Wed, Sep 28, 2022

Response inhibition, the ability to withhold actions that are no longer appropriate, is commonly studied using the stop-signal task. Participants’ performance on the task is often understood as a race between a go- and stop-process, making it tempting to fit evidence accumulation models as the go- and stop-racers. Prior research shows, however, that behavioral stop-signal evidence accumulation models have unrecoverable parameters. In this study, we explored whether neurocognitive models of response inhibition are recoverable from neural and behavioral stop-signal data, as it has been suggested

ePoster · Cognition

Age-related differences in oscillatory brain responses during the Sustained Attention to Response Task (SART)

Zehra Ülgen, Kübra Altuntaş, Christina Schmiedt-Fehr, Canan Başar-Eroğlu · FENS Forum 2024

Sustained attention is the focusing attention process on the selected stimulus for a long time, which can be measured with sustained attention to response task (SART). Our research group aimed to investigate the age-related changes in inhibitory functions with electroencephalography (EEG) in theta oscillations. The EEG of 19 healthy individuals (young, 18-25 years old, M = 21.71, SD = 2.06; elderly 55-70 years old, M = 62.43 , SD = 6.33) was recorded at the F3, Fz, F4, C3, Cz, C4, P3, Pz, P4, O1, Oz, and O2 locations during the auditory SART. The maximum power of the target stimuli was calcula

ePoster · Behavioral Neuroscience

Distinct oscillatory dynamics in the rat medial prefrontal cortex suggest beta bursts as a potential mediator of executive control

Ahmed Adžemović, Zoe Jäckel, Ilka Diester · FENS Forum 2024

The ability to withhold a response and appropriately time one’s actions is an essential component of goal-directed behavior. Aspects of such cognitive control in rodents are supported by the medial prefrontal cortex (mPFC). The mPFC and its subareas are a site of distinct delay-related activity during motor preparation. However, how mPFC integrates relevant information and exercises the control over behavioral responses remains incompletely understood. Here we characterized local field potentials (LFPs) within mPFC with a focus on the detection of beta bursts – discrete oscillatory events in t